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Model 220/230
PROGRAMMABLE SOURCES
QUICK REFERENCE GUIDE
lNTl?OOUCTlON
The Keithley Model 220 Programmable Current Source and 230 Pro-
grammable Voltage Source are easily interfaced to common con-
trollers using the IEEE-488 bus. These programs will set the current
and voltage values using the following controllers:
HP 85; HP 9825A; HP 98458; APPLE II (APPLE Interface); PET/CBM
2001; TEK 40% IBM PC or XT Personal Computer, E-H 7000 Com-
puter.
The programs accept a numeric input from the controller keyboard,
program the Model 220 for autoranging and continuous operation,
and set the instrument output to the values entered. All other
parameters remain unchanged, but may be altered by including
another input string variable. Programming for Model 230 f&flows the
same format with only minor modifications as explained in a note at
the end of each example.
01982, Keithley Instruments, Inc.
Cleveland, Ohio, U.S.A.
1984, Second Printing
Document Number 220-903-OlB
1
CONTENTS
PROGRAM CODES
Model220.............................................. 3
Model230.............................................. 7
PROGRAMS
HP85.. . . . . . . . . . . . . ..__.._._ __._ .I....... _. . .._.... ___ 11
HP9825A _........... ____.._ _.._................ _. . . .._ 12
HP9845B.......................~-..................... 13
APPLE II (APPLE Interface) . . . . . . . . . _. . . . . . . . . . . . . . . . . . . . . 14
PET/CBM 2001 . . . . _. . . . . . . . _. . _. . ._ __. . . . . __. . . . . 15
TEK4052...- _.___ __._,. _._ _....._....._..... r r......,. 16
IBMPCorXTPersonalComputer _......_ ___________ __.._._ .17
(Capital Equipment Corp. 0.1000 IEEE-488 Interface)
IBMPCorXTPersonalComputer.... _._..__. _..__ ._..._ __. 19
(Tecmar IEEE-488 Interface and Version 4.0 Software)
E-H 7000 Computer . . _. . . . . . . . . . . . . . . . . . . . . , . . . . . . . . 20
Model 220 Primary Address Switches
1
Model 230 Primary Address Switches
1 0
A2
A4
2
USPlAy: W = Source
Dl = Voltage Limit
D2 = Dwell Time
D3 = Memory Location
UNCTION: FO = Standby
1. Set output current to zero on 2nA range.
2. Reduce voltage limit to less then 32V. 1V
minimum.
Fl = Operate
Set output to value in memory location.
`REFIX: GO = Location with prefix is transmitted.
UDCI, V, W, NDCI + n.nnnnE + n, V + n.nnOOE + n,
I, L, I/O) W + n.nnnnE + n, L + n.nnOOE + n
Gl = Location without prefix is transmitted.
+ n.nnnnE + n, + n.nnOOE + n,
+ n.nnnnE t n, t n.nnOOE + n
G2 = Buffer address with prefix is transmitted.
NDCI t n.nnnnE + n, V t n.nnOOE t n,
W t n.nnnnE t n, B + n.nnOOE t n
G3 = Buffer address without prefix is transmitted.
t n.nnnnE + n, + n.nnOOE t n,
t n.nnnnE t n, t n.nnOOE t n
G4 = Full buffer with prefix is transmitted.
NDCI + n.nnnnE t n, V + n.nnOOE t n,
W t n.nnnnE t n, B t l.OOOOEt 0,
NDCI t n.nnnnE + n, V t n.nnOOE t n,
W t n.nnnnE + n. B t 2.0OOOE + 0,
NDCI t n.nnnnE + n, V + n.nnOOE + n,
W t n.nnnnE + n, B + 3.0000E t O,...
NDCI + n.nnnnE + n, V + n.nnOOE + n,
W + n.nnnnE + n, B + l.OOOOE+ 2
G5 = Full buffer without prefix is transmitted.
t n.nnnnE t n, t n.nr@OE t n,
+ n.nnnnE + n, + l.OOOOE+ 0,
+ n.nnnnE + n, t n.nnOOE t n,
+ n.nnnnE + n, t 2.0OOOE t 0
+ n.nnnnE + n, + n.nnOOE + n,
t n.nnnnE + n, + 3.OOOOEt 0,...
t n.nnnnE t n, t n.nnOOE t n,
+ n.nnnnE + n, + l.OOOOE+ 2
NDCI t n.nnnnE + n for current
V t n.nnOOE t n for voltage limit
3
W + n.nnnnE t n for dwell time
B t n.nnOOE t n for buffer address (IEEE
buffer)
L t n.nnOOE + n for memory location
(display)
"N" is replaced with "0" if over voltage
condition exists.
Status Word: GO, G2, G4 status word with prefix
transmitted: 2200000020600:
Gl, G3, G5 status word without
prefix transmitted: 0000020600:
l/O Status: GO, G2, G4 l/O status with prefix
transmitted: I/Oii,oo
Gl, G3, G5 I/O status without prefix
transmitted: ii.00
where i is the input from 0 to 15;
where o is the output from 0 to 15.
EOI: KO = EQI transmitted on last byte out.
Kl = EOI is not transmitted.
SRQ: Mnn: nn = 0 to 31 base, 10 or
00000 to 11111 base 2.
0 = bit disabled
1 = bit enabled
Bits: SRQ mask
MSB7: N/A
6: NiA
5: N/A
4: Input Port Change
3: End of Dwell Time
2: End of Buffer
1: Over Voltage Limit
0: IDDC, IDDCo or - REN (nor Remote)
SRQ BYTE: BITS: DATA ERROR
MSB7 NIA N/A
6 SRQ SRQ
5 Data = 0 Error = 1
4 N/A N/A
3 Input Port Change N/A
2 End of Dwell Time -REN
(No Remote)
1 End of Buffer IDDCO
0 Over Voltage Limit IDDC
`ROGRAM PO = Single
AODE: Pl = Continuous
P2 = step
IANGES: RO = Auto Range (force most significant number)
Rl = Full scale: 2 nA 2.OE-9 (preserve
IS= 20 nA 2.OE-8 significance)
R3 = 200 nA 2.0&-7
R4 = 2fi 2.OE-6
R.5 = 2OpA 20E-5
Rii = 200 /LA 2.OE-4
R7 = 2mA 2.OE-3
R8 = u)mA 2.OE-2
R9 = 200mA 2.OE- 1
`RIGGER TO = Start on Talk
IODES: Tl = Stop on Talk
T2 = Start on Get
T3 = Stop on Get
T4 = Start on `x"
75 = Stop on "x"
T8 = Start on External
?7 = Stop on External
EEE TERMINATOR
CHARACTER: Yc = The (ASCII) byte contains an ASCII charac-
ter which will be used as the terminator for al
data until changed. The power up default is
(CR) (LF). INOTE: ASCII (DEL) indicates no
terminator, ASCII (LFI indicates (CRKLF).
and ASCII (CR) indicates (LFt (CR).1
Terminators not allowed: All capital letters;
all numbers; (blank); + - / , . e
UPUTS: Ifsign)n.nnnE(sign)nn
Current source output value
Lfmits:0 to lOl.OOmA
V(sign)n.nnnnEfsign)nn
Voltage limit
Limits: 1 to 105V
W(sign)n.nnnEfsignJnn
Dwell time
Limits:0 to 999.9sec (lmsec steps)
B(sign)n.nnnnE(sign)nn
5
Buffer address (IEEE buffer)
Limits: 1 to 100
Ltsign)n.nnnnEk.ign)nn
Memory location (display)
Limits: 1 to 100
I/O PORT: On.nnnnEnn
Set control bits on "X"
n = 0 to 16 base 10 or
0000 to 1111 base 2
if 0 then bit low
if 1 then bit high
OUTPUT STATUS STRING
ON TALK: UO = Output status word on next read.
Formatz230DFGJKPRTM Y
Default:230 00 00 02 0 6 0 0 :
J is claarad to 0 after status word is read.
Ul = Output l/O status on next read.
Read input on X only.
I/Oii,oo = I/O status
where i is the input from 0 to 15.
where o is the output from 0 to 15.
DEBUGGING:
JO = ROM and LED test
Sets power up status byte, J to 1 in the
status string.
6
MODEL 230 PROGRAM CODES
DISPLAY: Do = SourcfJ
Dl = Current Limit
D2 = Dwell Time
D3 = Memory Location
FUNCTION: FO = Standby
Set output voltage to zero.
Fl = Operate
Set output to value in memory location.
PREFIX: GO = Location with prefix is transmitted
(NDCI, V, W, NDCV + n.nnnnE + n, I + n.nnOOE + n,
B. L. I/O) W + n.nnnnE + n, L + n.nnOOE + n
Gl = Location without prefix is transmitted.
+ n.nnnnE + n, + n.nnOOE + n,
+ n.nnnnE + n, t n.nnOOE t n
G2 = Buffer address with prefix is transmitted.
NDCV t n.nnnnE + n, I + n.nnOOE + n,
W + n.nnnnE + n, B + n.nnOOE t n
G3 = Buffer address without prefix is transmitted
t n.nnnnE t n, + n.nnOOE t n,
t n.nnnnE + n, t n.nnOOE + n
G4 = Full buffer with prefix is transmitted.
NDCV + n.nnnnE t n, I + n.nnOOE t n,
W t n.nnnnE t n, B t l.OOOOEt 0,
NDCV t n.nnnnE t n, 1 t n.nnOOE + n
W t n.nnnnE + n, B t 2.00OOE + 0,
NDCV t n.nnnnE t n, I t n.nnOOE t n,
W + n.nnnnE t n, B t &OOOOEt 0,...
NDCV + n.nnnnE + n, I + n.nnOOE t n,
W t n.nnnnE + n, B t l.OOOOE+ 2
G5 = Full buffer without prefix is transmitted.
+ n.nnnnE t n, + n.nnOOE + n,
+ n.nnnnE t n, + l.OOOOE t 0,
t n.nnnnE t n, t n.nnOOE t n,
+ n.nnnnE t n, t 2.0000E + 0
t n.nnnnE t n, + n.nnOOE t n,
t n.nnnnE t n, t 3.0000E + 0,...
+ n.nnnnE + n, t n.nnOOE t n,
+ n.nnnnE + n. t l.OOOOEt 2
NDCV t n.nnnnE t n for voltage
I + n.nnOOE t n for current limit
W t n.nnnnE + n for dwell time
B t n.nnOOE t n for buffer address (IEEE
7
L t n.nnOOE + n for memory location
(display)
"N" is replaced with~"0" if over current
condition exists.
Status Word: GO, G2, G4 status word with prefix
transmitted: 2300030020600:
Gl , G3, G5 status word without prefi
transmitted: 0000620660:
I/O Status: GO, G2, G4 110 status with prefix
transmitted: I/Oii,oo
Gl, G3, G5 I/O status without prefix
transmitted: ii,00
where i is the input from 0 to 15;
where o is the output from 0 to 15.
01: KO = EOI transmitted on last byte out.
Kl = EOI is not transmitted.
RQ: Mnn: nn = 0 to 31 base 10, or
0000 to 1111 base 2.
0 = bit disabled
1 = bit enabled
Bii SRQ mask
MSB? N/A
6: NIA
5: N/A
4: Input Port Change
3: End of Dwell Time
2: End of Buffer
1: Over Current Limit
0: IDDC, IDDCo or --REN (no Remote)
RQ BYTE: BITS DATA ERROR
MSB7 N/A NIA
6 SRQ SRQ
5 Data = 0 Error = 1
4 N/A N/A
3 Input Port Change NIA
2 End of Dwell -REN
(No Remote)
1 End of Buffer IDDCO
0 Over Current Limit IDDC
MODE: Pl = Continuous
P2 = step
RANGES: RO = Auto Range (force most significant number)
Rl = Full scale: 200mV 2.OE-1 (preserve
R2 = 2 V 2.OEtO significance)
R3 = 20 V 2.OEtl
R4 = 200 V 2.OEt2
TRIGGER TO = Start on Talk
MODES: Tl = Stop on Talk
T2 = Start on Get
l3 = Stop on Get
T4 = Start on `x"
T6 = Stop on `x"
TB = Start on External
TJ = Stop on External
IEEE TERMINATOR
CHARACTER Yc = The (ASCII) bve contains an ASCII charac-
ter which will be used as the terminator for
data until changed. The power up default is
(CR) (LF). [NOTE: ASCII (DEL) indicates no
terminator, ASCII (LF) indicates (CR) (LF),
and ASCII (CR) indicatae fLF) (CR).1
Terminators not allowed: Ail capital letters;
all numbers; (blank); t - / , . a
INPUTS: V(sign)n.nnnnEfsign)nn
Voltage source output value
Limits:0 to f 101.OOV
I(sign)n.nnnnE(sign)nn
Voltage limit
Limits:0 = 2mA
1= 2omA
2 = lOOmA
W(Sign)n.nnnnE(sign)nn
Dwell time
Limits:0 to 999.9sec (lmsec steps)
B(sign)n.nnnnE(sign)nn
Buffer address (IEEE buffer)
Limits: 1 to 100
L(sign)n.nnnnE(sign)nn
9
Memory location (display)
Limits: 1 to 100
I/O PORT: Crn.nnnnEnn
Set control bits on 3"
n = 0 to 16 base 10 or
ooootollll base2
if 0 then bit low
if 1 then bit high
OUTPUT STATUS STRING
ON TALK: UO = Output status word on next mad.
Format:220DFGJKPRTM Y
Default:2200 0 00 02 0 6 0 0 :
Ul = Output l/O status on next read.
Read input on X only.
I/Oii,oo = I/O status
where i is the input from 0 to 15.
where o is the output from 0 to 15.
DEBUGGING JO = ROM and LED test
Sets power up status byte, J to 1 in the
status string.
PROGRAMS
The following programs are designed to be a simple aid to the user, and
are not intended to suit specific needs. Detailed information can be
found in the manual and on the programming card.
HP 85
This program sets up the Model 220 output according to the values
entered from the HP-85 keyboard, using the B2937A GPIB interface.
DiRECTiONS
1. Set switches on the Model 220 to addressablemode, primaryaddress
12.
2. Connect the Model 220 to the HP 65 and HP 62937A GPIB interface.
3. Enter the program below using the END LINE key after each line.
4. Type RUN and depress the END LINE key.
5. The display will read ENTER I = .
6. To program the Model 220 to lfi output, type lE-6 and depress the
END LINE key.
7. The display will read ENTER V = .
8. To program the Model 220 to 20V compliance limit, type 20 and
depress END LINE key.
9. The programmed change can be verified by selecting one of the front
panel DISPLAY pushbuttons and reading the display value.
PROGRAM COMMENTS
10 REMOTE 712 Remote enable instrument at
address 12.
20 DISP "ENTER I ="
30 INPUT I$ Enter desired current.
(Example: lfi = lE-6)
46 DISP "ENTER V = "
50 lNPUTV$ Enter desired voltage.
(Example: 20V = 20).
60 OUTPUT 712;"ROPlFlX", Output to IEEE bus, address 12.
`7" I$ `II" vs'x"
0 GO'& 20' Repeat
80 END End of program.
NOTE: While the program illustratesModel 220 programming over the
bus, the same program may be used with the Model 230 by simply
changing the bus address to 13 and entering 0, 1 or 2 (2mA, 2OmA or
lOOmA) currant compliance in response to ENTER I.
77
HP 9825A
-
This orooram sets up the Model 220 outrsut according to the values
entered from the HP 9825 keyboard, using the 98034AHPIB interface
and a 9872A extended l/O ROM.
DIRECTIONS
1. Set switches on the Model 220 to addressablemode, primaryaddress
12.
2. Connect the Model 220 to HP 9825A and 98034A HPIB interface.
3. Enter the program below, using the STORE key after each line.
4. Depress the RUN key.
5. The display will read: enter i = ?.
6. To program the Model 220 to 14 output, type lE-6 and depress the
STORE key.
7. The display will read: enter v = 7.
&To program the Model 220 to 20V compliance limit, type 20 and
depress the STORE key.
9. The programmed change can be verified by selecting one of the front
panel DISPLAY pushbuttons and reading the display value.
PROGRAM COMMENTS
0 dim A$~201,I$1201,V$[201 Dimension string variables.
1 dev "220" 712 Define bus address 12 as 220.
2 ent "enter'i = l",lS Enter desired currant.
(Example: lfi = lE-6).
3 ent "enter v - 7",VS Enter desired voltage.
(Example: 20V = 20).
4 "220"- A$ Set A$ = "220".
5 wrt A$,"ROPlFlX" ' "I", Output to IEEE bus, address 12.
IS `II"V$ "X"
6 gto2' ' Repeat
7 end End of program.
NOTE: While the program illustratesModel 220 programming over the
bus, the same program may be used with the Model 230 by simply
changing the bus address to 13 and entering 0, 1 or 2 (2mA. 2OmA or
lOOmA) current compliance in response to ENTER I.
12
HP 9845B
This program sets up the Modal 220 output according to the values
entered from the HPB845B keyboard using the 98034A HPIB interface
and an I/O ROM.
DIRECTIONS
1. Set switches on the Model 220 to addressable mode, primaryaddress
12.
2 Connect Model 220 to HP 98458 and 98034A interface.
3. Enter the program below using the STORE key after each line.
4. Depress the RUN key.
5. The display will mad "ENTER I" in the lower left corner.
6. To program the Model 220 to l&output, type lE-6 and depress the
STORE key.
7. The display will read ENTER V in the lower left hand corner.
8. To program the Model 220 to 20V compliance limit, type 20 and
depress the STORE key.
9. The programmed change can be verified by selecting one of the front
panel DISPLAY pushbuttons and reading the display value.
PROGRAM COMMENTS
10 DIM 1$(20), V$f20) Dimension string variables.
20 SRCE = 712 Define bus address 12 as SRCE.
30 INPUT "ENTER I", IS Enter desired current.
(Example: lfi = lE-6).
40 INPUT "ENTER V",V$ Enter desired voltage.
(Example: 20V = 20).
50 OUTPUT SRCE; "ROPlFlX"; Output to IEEE bus, address 12.
",".I$.`~".Vs"x"
60GdTb3d Repeat
70 END
NOTE: While the program illustratesModel 220 programming over the
bus, the same program may be used with the Model 230 by simply
changing the bus address to 13 entering 0, 1 or 2 QmA, 2OmA or
lOOmAl current compliance in response to ENTER I.
13
APPLE II (APPLE Interface1
This program sets up the Model 220 output according to the values
entered from the APPLE II keyboard.
DIRECTIONS
1. Set switches on the Model 220 to addressabe mode, primary address
12.
2. Connect the Modal 220 to APPLE II and APPLE IEEE interface.
3. Enter the program below using the RETURN key after each line.
4. Type in RUN.
5. The display will mad ENTER I.
6. To program the Model 220 to 14 output, type 1E-6 and depress the
RETURN key.
7. The display will read ENTER V.
8. To program the Model 220 to ZOV compliance limit, type 20 and
depress the RETURN key.
9. The programmed change can be verified by selecting one of the front
panel DISPLAY pushbuttons and reading the display value.
PROGRAM COMMENTS
10 PRINT ENTER I
20 INPUT IS Enter desired current.
(Example: Ifi = 156)
30 PRINT ENTER V
40 INPUTVS Enter desired voltage.
(Example: 20V = 20).
50 28 = CHRSf26) DefineZS = CTRL-2.
60 PRW Set to l/O on the IEEE bus.
70 IN#3
80 PRINT "RA" Sent remote enable all.
90 PRINT "WT,";Z$;"ROP1F1X"; Output to IEEE bus, address
"pl$"qp"$."x"I
,, , 12.
100 PRINT "LFl" Send line feed after carriage
return.
110 PRt 0 Set to I/O on the CRT Et
keyboard.
120 INRO
130 GO TO 10 Repeat
140 END End of program.
NOTE: While the program illustratesthe Model 220 programming over
the bus, the same program may be used with the Model 230 by simply
changing the bus address to 13. Line 90 should read:
90 `?NT-".ZB."ROP,F,X"."I". t
I r ,
I$.`q/"."$."x".
I ,I .
Enter 0, 1 or 2 QmA, 20mA or lOOmA) current compliance is response
to ENTER I.
74
PETKBM 2001
This program sets up the Model 220 output according to the values
entered from the PETKBM 2001 keyboard.
DIRECTIONS
1. Sat switches on the Model 220 to addressablemode, primaly address
12.
2. Connect Model 220 to PETKBM 2001 IEEE interface.
3. Enter the program below using the RETURN key after each line.
4. Type RUN and depress the RETURN key.
5. The display will read ENTER I.
6. To program the Model 220 to lfi output, type lE-6 and depress the
RETURN key.
7. The display will read ENTER V.
8. To program the Model 220 to 20V compliance limit, type 20 and
depress the RETURN key.
9. The programmed change can be verified by selecting one of the front
panel DISPLAY pushbuttons and reading the display value.
PROGRAM COMMENTS
10 OPEN 6, 12 Open file 6, primary address 12.
20 INPUT "ENTER I"; I$ Enter desired current.
Example: lfi = lE-6)
30 INPUT "ENTER V";V$ Entar desired voltage.
(Example: 2OV = 20)
40 PRINT #6 "ROPlFlX" "I" Output to IEEE-488 bus, address 12.
l$,v~,vs:vc~ ' '
60 GOT0 20 Repeat
80 END End of program.
NOTE: While the program illustratesModel 220 programming over the
bus, the same program may be usad with the Model 230 by simply
changing the bus address to 13 and entering 0, 1 or 2 C?mA,20mA or
lOOmA) current compliance in response to ENTER I.
TEK 4052
This program sets up the Model 220 output according to the valuas
entered from the TEK 4052 with an 4061 GPIB interface.
DIRECTIONS
1. Set switches on the Model 220 to addressable mode, primaryaddress
12.
2 Connect Model 220 to TEK 4051 IEEE interface.
3. Enter the program below using the RETURN key after each line.
4. Type in RUN.
5. The display will read "ENTER l".
6. To program the Model 220 to Ifi output, type 1E-6and depress the
RETURN key.
7. The display will mad ENTER V.
8. To program the Model 220 to 2OV compliance limit, type 20 and
depress the RETURN key.
9. The programmed change can be verified by selecting one of the front
panel DISPLAY pushbuttons and reading the display value.
PROGRAM COMMENTS
10 PRINT @ 37,0: 10, 255, 13
20 INPUT "ENTER 1"
30 INPUT IS Enter desired output.
(Example: Ifi = lE-6)
40 PRINT "ENTER V"
50 INPUTVS Enter desired compliance.
(Example: 20V = 20.1
60 PRINT @l2:"ROP1FIX","I", Output to IEEE bus, address 12.
IS `II" vs'x"
70 Gb TCi 20 Repeat
80 END End of program.
NOTE: While the program illustratesModel 220 programming over the
bus, the same program may be used with the Model 230 by simply
changing the bus address to 13 and entering 0, 1 or 2 QmA, 20mA or
lOOmA) current compliance in response to ENTER I.
16
IBM PC or XT Personal Computer
(Capital Equipment Corp. 01000 IEEE488 Interface)
The following program sends a command string to the Model 220/230
and displaysthe instrument data string on the IBM CRT. The equipment
required for this program is the IBM PC or XT computer configuredwith
DOS 2.0 and BASICA and the Capital Equipment Corp. (CEC) 01060
IEEE-488 interface. The interface board must be installedas per the CEC
01000 Instruction Manual (address = SCOOOO).
DIRECTIONS
1. Using the rear panel switches, set the Model 220/230 to the address-
able mode with primary address 12.
2. Connect the instrument to the interface with power off.
3. Enter the program below into the computer, pressing the return key
after each line is entered.
4. Press the R key to run the program. The CRT will display
"COMMANDI".
5. Enter the desired command string and press the return key. For exam-
ple, to program the Model 220 for a current of lOmA, key in llOE3X.
To program a voltage of 25V on the Model 230, type in V25X.
6. The entire reading string from the instrument will then appear on the
computer CRT.
PROGRAM
10 REM PROGRAM FOR MODEL 220 WITH CEC 01000
INTERFACE
20 CLS:DEF SEG = BHCOOO`INTERFACE IS AT ADDRESS
scoooo
30 REM DEFINE INTERFACE PARAMETERS
40 INIT = &ADD% = 21:LEV% =0: TRANSMIT =8:RECEIVE
=6:REN$="REN":STATUS%=O
50 R$=SPACE$tlOO) ' DEFINE INPUT BUFFER
60 CALL INITtADD%,LEV%) `INITIALIZE INTERFACE
70 CALL TRANSMITfRENS,STATUS%) `SET UP THE 220 FOR
REMOTE
80 IF STATUS %C >O THEN 190 ' IF BUS ERROR PROCESS IT
90 INPUT "COMMAND";CS `PROMPT FOR COMMAND
100 CMD$="MTA UNL LISTEN 12 DATA ' "+Ct+"' 13 IO"
`SET UP LISTEN COMMAND
110 CALL TRANSMIT (CMDS, STATUS%)' TRANSMIT
COMMAND TO 220
120 IF STATUS%00 THEN 190
130 CMD$="MlA UNT TALK 12" `SET UP TALK COMMAND
STRING
140 CALL TRANSMIT (CMDS,STATUS%I'ADDRESS 220 TO
TALK
17
150 IF STATUS%<70 THEN 190
160 CALL RECENE(R$,L%,STATUS%) ' INPUT DATA STRING
FROM 220
170 PRINT LEFT$(R$,L%l `PRINT DATA STRING ON CRT
180 GOT0 90 `REPEAT
190 PRINT-IEEE ERROR #";STATUS%:END `PROCESS IEEE
ERROR
18
IBM PC or XT Personal Computer
ITecmar IEEE-488 Interface and Version 4.0 Software)
The following program sends a command string to the Model 220/230
and displaysthe instrument data string on the IBM CRT. The equipment
required for this program is the IBM PC or XT computer configured with
DOS 2.0 and BASICA and the Tecmar interface with version 4.0 soft-
ware. The interface and associatedsoftware must be installedas per the
Tecmar IEEE488 Instruction Manual (board address = EtH310).
DIRECTIONS
1. Using the rear panel switches, set the Model 220/230 for the address
able mode with primary address 12.
2. While power is off, connect the instrument to the interface.
3. Insert the Tecmar software disk in the default drive and load the pro-
gram called "IEEE488".
4. Add the lines below to the front of the program, pressingreturn after
each line is entered.
5. Press the F2 key to run the program. The CRT will display
"COMMAND?".
6. Enter the desired command strfng and press return. For example, to
program a current of 1OmAon the Model 220, enter IlOE-3X. To pro-
gram a voltage of 25V on the Model 230, type in V25X.
7. The entire reading.stringfrom the instrument will then appear on the
CRT.
PROGRAM
5 CLS ' PROGRAM FOR MODEL 220 AND TECMAR INTERFACE
WITH 4.0 SOFTWARE
10 PARAMS ="INIT/1/8H310/P/":GOSUB 10000 `INITIALIZE
INTERFACE
20 PARAM$="ADTR/":GOSUB 10000 ' SET UP 220 FOR
REMOTE
30 INPUT"COMMAND";CMD$:IF CMD$="" THEN 30 `PROMPT
FOR COMMAND
40 DATA.STRING$=CMD$ `SET UP INTERFACE COMMAND
STRING
Xl PARAM$=`WR.STR/12IIEOS/":GOSUB 10000 `SEND
COMMAND STRING TO INSTRUMENT
60 ,PARAM$="RD.STR/12/10/EOS/":GOSUB 10000 `READ
DATA STRING FROM 220
70 PRINT DATA.STRING$ `PRINT DATA STRING ON CRT
90 GDTD 30 `REPEAT
E-H 7000 Computer
The following program sends a data string from the E-H 7066 computer
to the Modal 220/230 and then displaystheinstruments reading on the
computer CRT. The E-H 7000 must be configured with MS-DOS,
IO-SYS and BASICA as outlined in its instruction manual.
DIRECTIONS
1. Using the rear panel switches, set the Modal 220/230 for the
addressable mode with priman/ address 12.
2. While the power is off connect the Model 220/230 to PORT 1 of the
computer.
3. While in BASICA, tYpe LOAD "EHE488.CMP" to load the GPIB
handler software.
4. Add the lines below to the front of the program now in memory;
press the return key after each line is typed. The complete program
may now be saved in the usual manner.
5. Press the computer F2 key to run the program. The CRT will prompt
with "COMMAND?".
6. Type in the desired command. For example, to program a current of
1OmAon the Model 220, enter IlOE-3X. To program a voltage of 25V
on the Model 230 type in V26X and press the return key.
7. The entire reading string from the instrument will then appear on the
CRT.
PROGRAM COMMENTS
10 CLS
20 GOSUB 65010 `InitializeHandler Software
30 CALL PORT1 `Initialize Port 1
40 CALL INlT `Initialize Interface
50 DEVS = "12 " `Primary Address = 12
60 INPUT "COMMAND"; C8 `Prompt for Command
String
70 IF C$=""THEN 60 ' If Null Input Go Back
80 INS = SPACES(60) ' Define Reading Buffer
90 CALL SNDSTR(DEVS,CS) ' Send Command String to
220
100 CALL RCVSTRfDEVS, `Get Reading From 220
INS)
110 PRINT INS `Display Reading String on
CRT
120 GOTD 66 `Repeat
Test Instrumentation Group
28775 Aurora Road / Cleveland, Ohio 44139
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